The role of collective elasticity on activated structural relaxation, yielding, and steady state flow in hard sphere fluids and colloidal suspensions under strong deformation

Keyphrases

• Colloidal Suspension 100%
• Hard Sphere Fluid 100%
• Structural Relaxation 100%
• Steady-state Flow 100%
• Strong Deformation 100%
• Relaxed State 100%
• Dynamic Heterogeneity 66%
• Packing Fraction 66%
• Shear Rate 33%
• Shear Thinning 33%
• Non-vanishing 33%
• Steady State 33%
• Rate Dependence 33%
• Power Law 33%
• Apparent Power 33%
• Mechanical Response 33%
• Strain Rate 33%
• Activation Barrier 33%
• Nonlinear Langevin Equation 33%
• Stress-strain 33%
• Equilibrium Condition 33%
• Activated Processes 33%
• Dynamic Yield Stress 33%
• Nonlinear Rheology 33%
• Shear Stress 33%
• Exponential Growth 33%
• Elastic Effect 33%
• Structural Relaxation Time 33%
• Macroscopic Forces 33%
• Steady-state Shear 33%
• Herschel-Bulkley 33%
• Force-based 33%
• Relaxation Speed 33%
• Thinning Regime 33%
• Dynamic Flow Stress 33%
• Relaxation Viscosity 33%

Engineering

• Colloidal Suspension 100%
• Sphere Fluid 100%
• Steady State Flow 100%
• Rheology 50%
• Fluid Viscosity 50%
• Shear Rate 50%
• Shear Thinning 50%
• Apparent Power 50%
• Physical Picture 50%
• Mechanical Response 50%
• Flow Stress 50%
• Equilibrium Condition 50%
• Rate Dependence 50%
• Induced Deformation 50%
• Relative Importance 50%
• Exponential Growth 50%
• Relaxation Time 50%
• Yield Point 50%

Material Science

• Colloidal Suspension 100%
• Elasticity 100%
• Structural Relaxation 100%
• Rheology 25%